1. The 2007 Recommendations of the International Commission on Radiological Protection. ICRP publication 103. Ann ICRP 2007;37:1-332
2. Hayakawa M, Moritake T, Kataoka F, et al: Direct measurement of patient's entrance skin dose during neurointerventional procedure to avoid further radiation-induced skin injuries. Clin Neurol Neurosurg 2010;112:530-536
3. Imanishi Y, Fukui A, Niimi H, et al: Radiation-induced temporary hair loss as a radiation damage only occurring in patients who had the combination of MDCT and DSA. Eur Radiol 2005;15:41-46
4. Nannapaneni R, Behari S, Mendelow D, et al: Temporary alopecia after subarachnoid haemorrhage. J Clin Neurosci 2007;14:157-161
5. Thorat JD, Hwang PY: Peculiar geometric alopecia and trigeminal nerve dysfunction in a patient after Guglielmi detachable coil embolization of a ruptured aneurysm. J Stroke Cerebrovasc Dis 2007;16:40-42
6. Wen CS, Lin SM, Chen Y, et al: Radiation-induced temporary alopecia after embolization of cerebral arteriovenous malformations. Clin Neurol Neurosurg 2003;105:215-217
7. ICRP publication 118: ICRP statement on tissue reactions and early and late effects of radiation in normal tissues and organs--threshold doses for tissue reactions in a radiation protection context. Ann ICRP 2012;41:1-
8. 坂本 肇, 中村 修, ⼸削 誠, 他: ⾯積線量計による患者被曝管理の検討. ⽇放線技会誌 2000;56:1256-1265
9. ⽥中 淳司, 平⽥ 壽, ⻄ 直⼦: 平⾏平板型⾯積線量計を⽤いた IVR における患者被曝線量の測定. ⽇本医放会誌 2000;60:261-267
10. Bednarek DR, Barbarits J, Rana VK, et al: Verification of the performance accuracy of a real-time skin-dose tracking system for interventional fluoroscopic procedures. Proc SPIE Int Soc Opt Eng 2011;7961
11. 坂本 肇, 深澤 瑞, 武⽥ 正, 他: BAIVT における術者と患者の被曝線量. ⽇透析医学会誌 2003;36:1199-1205
12. Moritake T, Hayakawa M, Matsumaru Y, et al: Precise mapping system of entrance skin dose during endovascular embolization for cerebral aneurysm. Radiat Meas 2011;46:2103-2106
13. Moritake T, Matsumaru Y, Takigawa T, et al: Dose measurement on both patients and operators during neurointerventional procedures using photoluminescence glass dosimeters. AJNR Am J Neuroradiol 2008;29:1910-1917
14. Nishizawa K, Moritake T, Matsumaru Y, et al: Dose measurement for patients and physicians using a glass dosemeter during endovascular treatment for brain disease. Radiat Prot Dosimetry 2003;107:247-252
15. 川内 覚, 盛武 敬, 早川 幹⼈, 他: 頭部診断⾎管撮影における最⼤⼊射⽪膚線量の推定. ⽇放線技会誌 2015;71:746-757
16. Kawauchi S, Chida K, Moritake T, et al: Treatment of Internal Carotid Aneurysms Using Pipeline Embolization Devices- Measuring the Radiation Dose of the Patient and Determining the Factors Affecting It. Radiat Prot Dosimetry 2020;188:389-396
17. Kawauchi S, Chida K, Moritake T, et al. Radiation Dose Analysis of Internal Carotid Aneurysm Treatment With Flow Diverter Stent: Measurement of peak skin dose and lens doses. European Congress of Radiology (ECR). Vienna 2020.
18. Kawauchi S, Chida K, Moritake T, et al: Radioprotection of eye lens using protective material in neuro cone-beam computed tomography: Estimation of dose reduction rate and image quality. Phys Med 2021;82:192-199
19. Kawauchi S, Chida K, Moritake T, et al. How Much Radiation is a Patient Exposed to in Cone Beam CT for Interventional Neuroradiology? The Radiological Society of North America (RSNA). Chicago 2016.
20. Kawauchi S, Chida K, Moritake T, et al: Estimation of patient lens dose associated with C-arm cone-beam computed tomography usage during interventional neuroradiology. Radiat Prot Dosimetry 2019;184:138-147
21. Kanayama S, Hara T, Hamada Y, et al: Potential of 80-kV high-resolution cone-beam CT imaging combined with an optimized protocol for neurological surgery. Neuroradiology 2015;57:155-162
22. Snoeren RM, Söderman M, Kroon JN, et al: High-resolution 3D X-ray imaging of intracranial nitinol stents. Neuroradiology 2012;54:155-162
23. Tsuruta W, Matsumaru Y, Hamada Y, et al: Analysis of closed-cell intracranial stent characteristics using cone-beam computed tomography with contrast material. Neurol Med Chir (Tokyo) 2013;53:403-408
24. van der Bom IM, Gounis MJ, Ding L, et al: Target delineation for radiosurgery of a small brain arteriovenous malformation using high- resolution contrast-enhanced cone beam CT. J Neurointerv Surg 2014;6:e34
25. Sánchez RM, Vañó E, Fernández JM, et al: Radiation Doses in Patient Eye Lenses during Interventional Neuroradiology Procedures. AJNR Am J Neuroradiol 2016;37:402-407
26. Sandborg M, Nilsson Althén J, Pettersson H, et al: Patient organ radiation doses during treatment for aneurysmal subarachnoid hemorrhage. Clin Neuroradiol 2012;22:315-325
27. Struffert T, Hauer M, Banckwitz R, et al: Effective dose to patient measurements in flat-detector and multislice computed tomography: a comparison of applications in neuroradiology. Eur Radiol 2014;24:1257- 1265
28. Wang C, Nguyen G, Toncheva G, et al: Evaluation of patient effective dose of neurovascular imaging protocols for C-arm cone-beam CT. AJR Am J Roentgenol 2014;202:1072-1077
29. Kim JS, Kwon SM, Kim JM, et al: New organ-based tube current modulation method to reduce the radiation dose during computed tomography of the head: evaluation of image quality and radiation dose to the eyes in the phantom study. Radiol Med 2017;122:601-608
30. Nikupaavo U, Kaasalainen T, Reijonen V, et al: Lens dose in routine head CT: comparison of different optimization methods with anthropomorphic phantoms. AJR Am J Roentgenol 2015;204:117-123
31. Wang J, Duan X, Christner JA, et al: Bismuth shielding, organ-based tube current modulation, and global reduction of tube current for dose reduction to the eye at head CT. Radiology 2012;262:191-198
32. Ciarmatori A, Nocetti L, Mistretta G, et al: Reducing absorbed dose to eye lenses in head CT examinations: the effect of bismuth shielding. Australas Phys Eng Sci Med 2016;39:583-589
33. Hopper KD, Neuman JD, King SH, et al: Radioprotection to the eye during CT scanning. AJNR Am J Neuroradiol 2001;22:1194-1198
34. McLaughlin DJ, Mooney RB: Dose reduction to radiosensitive tissues in CT. Do commercially available shields meet the users' needs? Clin Radiol 2004;59:446-450
35. Prins R, Dauer LT, Colosi DC, et al: Significant reduction in dental cone beam computed tomography (CBCT) eye dose through the use of leaded glasses. Oral Surg Oral Med Oral Pathol Oral Radiol Endod 2011;112:502- 507
36. Han SC, Kwon SC: Radiation dose reduction to the critical organ with bismuth shielding during endovascular coil embolisation for cerebral aneurysms. Radiat Prot Dosimetry 2013;156:364-371
37. 武 俊, 佐藤 ⾹, ⽊内 克, 他: 脳⾎管 IVR における⽔晶体被曝に対する防護シールドの作成と被曝低減効果. ⽇放線技会誌 2007;63:1246-1252
38. Mehnati P, Malekzadeh R, Sooteh MY: Use of bismuth shield for protection of superficial radiosensitive organs in patients undergoing computed tomography: a literature review and meta-analysis. Radiol Phys Technol 2019;12:6-25
39. Raissaki M, Perisinakis K, Damilakis J, et al: Eye-lens bismuth shielding in paediatric head CT: artefact evaluation and reduction. Pediatr Radiol 2010;40:1748-1754
40. Kato M, Chida K, Moritake T, et al: Fundamental study on the characteristics of a radiophotoluminescence glass dosemeter with no energy compensation filter for measuring patient entrance doses in cardiac interventional procedures. Radiat Prot Dosimetry 2014;162:224-229
41. 計測分科会 ⽇: 医療被ばく測定テキスト（改訂 2 版）. 2012
42. Seltzer SM, Hubbell, J.H.,: Tables and graphs of photon mass attenuation coefficients and mass energy-absorption coefficients for photon energies 1 keV to 20 MeV for elements Z=1 to 92 and some dosimetric materials. Jpn Soc Radiol Technol 2012
43. Chida K, Kato M, Inaba Y, et al: Real-time patient radiation dosimeter for use in interventional radiology. Phys Med 2016;32:1475-1478
44. Inaba Y, Nakamura M, Chida K, et al: Effectiveness of a novel real-time dosimeter in interventional radiology: a comparison of new and old radiation sensors. Radiol Phys Technol 2018;11:445-450
45. Kato M, Chida K, Nakamura M, et al: New real-time patient radiation dosimeter for use in radiofrequency catheter ablation. J Radiat Res 2019;60:215-220
46. Nakamura M, Chida K, Zuguchi M: Red emission phosphor for real-time skin dosimeter for fluoroscopy and interventional radiology. Med Phys 2014;41:101913
47. Nakamura M, Chida K, Zuguchi M: Novel Dosimeter Using a Nontoxic Phosphor for Real-Time Monitoring of Patient Radiation Dose in Interventional Radiology. AJR Am J Roentgenol 2015;205:W202-206
48. Dong Y, Shi AJ, Wu JL, et al: Metal artifact reduction using virtual monochromatic images for patients with pedicle screws implants on CT. Eur Spine J 2016;25:1754-1763
49. Kuya K, Shinohara Y, Kato A, et al: Reduction of metal artifacts due to dental hardware in computed tomography angiography: assessment of the utility of model-based iterative reconstruction. Neuroradiology 2017;59:231-235
50. Lin XZ, Miao F, Li JY, et al: High-definition CT Gemstone spectral imaging of the brain: initial results of selecting optimal monochromatic image for beam-hardening artifacts and image noise reduction. J Comput Assist Tomogr 2011;35:294-297
51. Suzuki S, Furui S, Ishitake T, et al: Lens exposure during brain scans using multidetector row CT scanners: methods for estimation of lens dose. AJNR Am J Neuroradiol 2010;31:822-826
52. Safari MJ, Wong JH, Kadir KA, et al: Real-time eye lens dose monitoring during cerebral angiography procedures. Eur Radiol 2016;26:79-86
53. Kim DJ, Park MK, Jung DE, et al: Radiation Dose Reduction without Compromise to Image Quality by Alterations of Filtration and Focal Spot Size in Cerebral Angiography. Korean J Radiol 2017;18:722-728
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